自编码
能源消耗
计算机科学
数据挖掘
人工智能
冗余(工程)
调度(生产过程)
高效能源利用
数据预处理
钥匙(锁)
预处理器
深度学习
机器学习
资源效率
一般化
能源会计
图形
作业车间调度
聚类分析
人工神经网络
能量(信号处理)
反向传播
工业工程
特征(语言学)
特征提取
资源(消歧)
能源管理
生产(经济)
制造业
工程类
消费(社会学)
分布式计算
可靠性工程
材料效率
作者
Wei Chen,Liping Wang,Changchun Liu,Dunbing Tang,Zequn Zhang
标识
DOI:10.1016/j.aei.2026.104390
摘要
• A hybrid deep optimized approach for energy consumption analysis and prediction. • Advanced preprocessing ensures clean, relevant energy consumption data. • Spatiotemporal feature extraction via VAE-GAT optimization. • The model outperforms others in accuracy and real-world applicability. In the global pursuit of carbon neutrality, the manufacturing industry is under increasing pressure to reduce energy waste. Excess consumption not only depletes resources but also hinders sustainable development. Accurate energy consumption prediction is therefore essential for scientific production scheduling and resource allocation, enabling loss reduction, efficiency improvement, and environmental performance enhancement. However, the complexity of modern manufacturing environments results in energy consumption data that is high-dimensional, noisy, and strongly spatiotemporal, which poses challenges to traditional prediction methods. To address these issues, this paper constructs an energy consumption behavior model considering key factors such as equipment status, processing techniques, and environmental conditions. A comprehensive feature analysis and data preprocessing are carried out to identify the key factors influencing consumption. Based on this, an optimization model is proposed that integrates an improved Variational Autoencoder (VAE) with an enhanced Graph Attention Network (GAT). VAE extracts compact latent representations from high-dimensional noisy inputs, suppressing redundancy while preserving essential patterns. GAT then captures complex spatiotemporal dependencies among energy-related features, thereby revealing intrinsic consumption dynamics. Experimental evaluations on both public and real-world datasets demonstrate that the proposed VAE-GAT model achieves superior prediction accuracy and generalization compared with other deep learning baselines. This approach provides a reliable foundation for energy management and contributes to advancing green intelligent manufacturing.
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